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Files
h8-536-decoder/tests/test_serial_pseudocode.py
2026-05-27 21:37:50 +10:00

628 lines
34 KiB
Python

import json
import tempfile
import unittest
from pathlib import Path
from unittest.mock import patch
from h8536.serial_pseudocode import (
SerialPseudocodeOptions,
generate_serial_pseudocode,
write_serial_pseudocode,
)
def candidate_payload() -> dict:
return {
"instructions": [],
"dtc_vectors": [],
"sci": {
"channels": {
"SCI1": {
"configurations": [
{
"mode": "async",
"mode_summary": "async 8-bit even parity 1 stop",
"smr": 0x24,
"smr_hex": "H'24",
"brr": 0x07,
"brr_hex": "H'07",
"scr": 0x3C,
"scr_hex": "H'3C",
"clock_source": "internal",
"baud_bps": None,
},
],
},
},
},
"sci_protocol": {
"manual_references": [
"Manual/0900766b802125d0.md:15794 RDR receive data register",
"Manual/0900766b802125d0.md:15823 TDR transmit data register",
],
},
"board_profile": {
"summary": "Board trace ties the H8/536 SCI1 pins to a MAX202 RS232 transceiver.",
"manual_references": [
"Manual/0900766b802125d0.md:2417 FP-80 H8/536 pin 66 is P95/TXD",
],
"traces": [
{
"signal": "TXD",
"h8_pin": 66,
"h8_pin_name": "P95/TXD",
"max202_pin": 11,
"evidence": "MAX202 pin 11 traces to H8 pin 66",
},
{
"signal": "RXD",
"h8_pin": 67,
"h8_pin_name": "P96/RXD",
"max202_pin": 12,
"evidence": "MAX202 pin 12 traces to H8 pin 67",
},
],
},
"serial_reconstruction": {
"candidates": [
{
"kind": "candidate_sci1_tx_frame",
"channel": "SCI1",
"frame_length": 6,
"buffer_start": 0xF858,
"buffer_start_hex": "H'F858",
"buffer_end": 0xF85D,
"buffer_end_hex": "H'F85D",
"checksum_address": 0xF85D,
"tx_index_address": 0xF9C2,
"tdr_address": 0xFEDB,
"checksum_seed": 0x5A,
"checksum_formula": "checksum = 0x5A ^ byte0 ^ byte1 ^ byte2 ^ byte3 ^ byte4",
"confidence": "high",
"confidence_score": 0.95,
"confidence_reason": "all required independent evidence groups were observed",
"comment": "candidate/evidence-supported SCI1 6-byte TX frame hypothesis",
"evidence_addresses_hex": {
"tx_checksum_seed": ["H'BA4E"],
"xor_checksum_chain": ["H'BA50", "H'BA54"],
},
},
{
"kind": "candidate_sci1_rx_frame",
"channel": "SCI1",
"frame_length": 6,
"capture_buffer_start": 0xF868,
"capture_buffer_start_hex": "H'F868",
"capture_buffer_end": 0xF86D,
"capture_buffer_end_hex": "H'F86D",
"validation_buffer_start": 0xF860,
"validation_buffer_end": 0xF865,
"checksum_address": 0xF865,
"rx_index_address": 0xF9C3,
"rdr_address": 0xFEDD,
"interbyte_timeout_address": 0xF9C1,
"complete_timer_address": 0xF9C5,
"checksum_seed": 0x5A,
"checksum_formula": "checksum = 0x5A ^ byte0 ^ byte1 ^ byte2 ^ byte3 ^ byte4",
"confidence": "high",
"confidence_score": 0.9,
"confidence_reason": "RX count, copy, and checksum-validation evidence were observed",
"caveat": "candidate frame means six consecutive bytes, not a proven delimited packet",
"comment": "candidate/evidence-supported SCI1 6-byte RX frame hypothesis",
"rx_error_handling": {
"error_latch_address": 0xFAA4,
"error_latch_address_hex": "H'FAA4",
"error_latch_bit": 7,
"fallthrough_to_rx_byte_path": True,
"rdrf_clear_before_rdr_read": True,
"summary": "SCI1 ERI marks a physical receive error and continues into RXI byte capture.",
"manual_caveat": "The ROM clears RDRF before reading RDR; preserve that observed order.",
"evidence_addresses_hex": ["H'BB57", "H'BB69", "H'BB6D"],
},
"evidence_addresses_hex": {
"rx_rdr_read": ["H'BB6D"],
"rx_rdrf_clear_before_rdr_read": ["H'BB69", "H'BB6D"],
"rx_eri_falls_through_to_rxi": ["H'BB57", "H'BB5B", "H'BB5F", "H'BB63", "H'BB69", "H'BB6D"],
"rx_xor_checksum_validation": ["H'BBD6", "H'BBEC"],
},
},
],
},
}
def semantic_payload() -> dict:
payload = candidate_payload()
payload["instructions"] = [
{"address": 0xBC08, "mnemonic": "MOV:G.B", "operands": "@H'F860, R0", "references": [{"address": 0xF860}], "targets": []},
{"address": 0xBC0C, "mnemonic": "AND.B", "operands": "#H'07, R0", "references": [], "targets": []},
{"address": 0xBC20, "mnemonic": "CMP:E.B", "operands": "#H'00, R0", "references": [], "targets": []},
{"address": 0xBC22, "mnemonic": "BEQ", "operands": "loc_BC69", "references": [], "targets": [0xBC69]},
{"address": 0xBC24, "mnemonic": "CMP:E.B", "operands": "#H'01, R0", "references": [], "targets": []},
{"address": 0xBC26, "mnemonic": "BEQ", "operands": "loc_BCD7", "references": [], "targets": [0xBCD7]},
{"address": 0xBCB0, "mnemonic": "MOV:G.B", "operands": "#H'04, @H'F850", "references": [{"address": 0xF850}], "targets": []},
{"address": 0xBCB5, "mnemonic": "MOV:G.B", "operands": "@H'F861, R0", "references": [{"address": 0xF861}], "targets": []},
{"address": 0xBCB9, "mnemonic": "MOV:G.B", "operands": "R0, @H'F851", "references": [{"address": 0xF851}], "targets": []},
{"address": 0xBCCD, "mnemonic": "BSR", "operands": "loc_BA26", "references": [], "targets": [0xBA26]},
]
return payload
class SerialPseudocodeTest(unittest.TestCase):
def test_generates_focused_tx_and_rx_candidate_paths(self):
text = generate_serial_pseudocode(candidate_payload(), source_name="rom.json")
self.assertIn("focused SCI RX/TX pseudocode from rom.json", text)
self.assertIn("SCI1 TX 6-byte frame at H'F858-H'F85D", text)
self.assertIn("SCI1 RX 6-byte frame captured at H'F868-H'F86D", text)
self.assertIn("8E1 SCI characters carry the 6 protocol bytes", text)
self.assertIn("SMR=H'24, BRR=H'07, SCR=H'3C", text)
self.assertIn("No SCI1 RXI/TXI DTC vector entries are present", text)
self.assertIn("MAX202 pin 11 traces to H8 pin 66", text)
self.assertIn("Manual/0900766b802125d0.md:15823 TDR transmit data register", text)
self.assertIn("#define SCI1_TX_FRAME_LENGTH 6u", text)
self.assertIn("#define SCI1_TX_FRAME_BASE 0xF858u", text)
self.assertIn("#define SCI1_TX_FRAME_BYTE(n) MEM8[(u16)(SCI1_TX_FRAME_BASE + (n))]", text)
self.assertIn("#define SCI1_TX_FRAME_CHECKSUM SCI1_TX_FRAME_BYTE(5u)", text)
self.assertIn("#define SCI1_TX_INDEX MEM8[0xF9C2u]", text)
self.assertIn("#define TX_FRAME(n) MEM8[(u16)(0xF858u + (n))]", text)
self.assertIn("#define RX_CAPTURE(n) MEM8[(u16)(0xF868u + (n))]", text)
self.assertIn("checksum ^= TX_FRAME(4);", text)
self.assertIn("TX_FRAME(5) = sci1_tx_candidate_checksum();", text)
self.assertIn("First byte is sent synchronously; TIE enables TXI for the remaining bytes.", text)
self.assertIn("SCI1_TDR = TX_FRAME(0);", text)
self.assertIn("TX_INDEX = 1u;", text)
self.assertIn("SCI1_SCR |= SCI_SCR_TIE;", text)
self.assertIn("void sci1_txi_candidate_isr(void)", text)
self.assertIn("TXI runs after hardware reasserts SSR.TDRE", text)
self.assertIn("if ((SCI1_SSR & SCI_SSR_TDRE) == 0u)", text)
self.assertIn("SCI1_TDR = TX_FRAME(TX_INDEX);", text)
self.assertIn("SCI1_SSR &= (u8)~SCI_SSR_RDRF;\n byte = SCI1_RDR;", text)
self.assertIn("RX_CAPTURE(RX_INDEX) = byte;", text)
self.assertIn("return sci1_process_rx_candidate_frame();", text)
self.assertIn("RX_ERROR_LATCH |= RX_ERROR_LATCH_PHYSICAL_ERROR;", text)
self.assertIn("sci1_rx_byte_received_candidate_isr();", text)
self.assertIn("RX error handling: SCI1 ERI marks a physical receive error", text)
self.assertIn("rx_xor_checksum_validation: H'BBD6, H'BBEC", text)
def test_generates_candidate_protocol_semantics_switch(self):
text = generate_serial_pseudocode(semantic_payload())
self.assertIn("Candidate Protocol Semantics", text)
self.assertIn("byte0: op_flags", text)
self.assertIn("dispatch: command_low3 = RX_FRAME(0) & 0x07", text)
self.assertIn("case 0x00u:", text)
self.assertIn("candidate_set_value_acked(logical_index, value);", text)
self.assertIn("case 0x01u:", text)
self.assertIn("candidate_read_value(logical_index, value);", text)
def test_protocol_pseudocode_surfaces_dispatcher_split(self):
payload = candidate_payload()
payload["instructions"] = [
{"address": 0xBC08, "mnemonic": "MOV:G.B", "operands": "@H'F860, R0", "references": [{"address": 0xF860}], "targets": []},
{"address": 0xBC0C, "mnemonic": "AND.B", "operands": "#H'07, R0", "references": [], "targets": []},
{"address": 0xBC0F, "mnemonic": "TST.B", "operands": "@H'FAA2", "references": [{"address": 0xFAA2}], "targets": []},
{"address": 0xBC13, "mnemonic": "BNE", "operands": "loc_BC3A", "references": [], "targets": [0xBC3A]},
{"address": 0xBC19, "mnemonic": "BTST.B", "operands": "#7, @H'F861", "references": [{"address": 0xF861}], "targets": []},
{"address": 0xBC20, "mnemonic": "CMP:E", "operands": "#H'00, R0", "references": [], "targets": []},
{"address": 0xBC22, "mnemonic": "BEQ", "operands": "loc_BC69", "references": [], "targets": [0xBC69]},
{"address": 0xBC24, "mnemonic": "CMP:E", "operands": "#H'01, R0", "references": [], "targets": []},
{"address": 0xBC26, "mnemonic": "BEQ", "operands": "loc_BCD7", "references": [], "targets": [0xBCD7]},
{"address": 0xBC29, "mnemonic": "CMP:E", "operands": "#H'02, R0", "references": [], "targets": []},
{"address": 0xBC2B, "mnemonic": "BEQ", "operands": "loc_BD04", "references": [], "targets": [0xBD04]},
{"address": 0xBC2E, "mnemonic": "CMP:E", "operands": "#H'07, R0", "references": [], "targets": []},
{"address": 0xBC30, "mnemonic": "BEQ", "operands": "loc_BE05", "references": [], "targets": [0xBE05]},
{"address": 0xBC45, "mnemonic": "CMP:E", "operands": "#H'04, R0", "references": [], "targets": []},
{"address": 0xBC47, "mnemonic": "BEQ", "operands": "loc_BD0E", "references": [], "targets": [0xBD0E]},
{"address": 0xBC4A, "mnemonic": "CMP:E", "operands": "#H'05, R0", "references": [], "targets": []},
{"address": 0xBC4C, "mnemonic": "BEQ", "operands": "loc_BD80", "references": [], "targets": [0xBD80]},
{"address": 0xBC4F, "mnemonic": "CMP:E", "operands": "#H'06, R0", "references": [], "targets": []},
{"address": 0xBC51, "mnemonic": "BEQ", "operands": "loc_BDDB", "references": [], "targets": [0xBDDB]},
{"address": 0xBC54, "mnemonic": "CMP:E", "operands": "#H'07, R0", "references": [], "targets": []},
{"address": 0xBC56, "mnemonic": "BEQ", "operands": "loc_BE05", "references": [], "targets": [0xBE05]},
]
text = generate_serial_pseudocode(payload)
self.assertIn("dispatcher split: FAA2 == 0 accepts initial/idle commands H'00, H'01, H'02, H'07; FAA2 != 0 accepts continuation commands H'04, H'05, H'06, H'07", text)
self.assertIn("bool session_active = MEM8[0xFAA2u] != 0u;", text)
self.assertIn("Initial/idle dispatcher", text)
self.assertIn("Continuation dispatcher", text)
self.assertIn("availability: valid checksum/no RX physical error && FAA2 == 0 && F861.bit7 == 0", text)
def test_protocol_pseudocode_surfaces_retry_echo_schema(self):
payload = candidate_payload()
payload["instructions"] = [
{"address": 0xBE4B, "mnemonic": "BRA", "operands": "loc_BE6D", "references": [], "targets": [0xBE6D]},
{"address": 0xBE4D, "mnemonic": "MOV:G.B", "operands": "#H'07, @H'F850", "references": [{"address": 0xF850}], "targets": []},
{"address": 0xBE52, "mnemonic": "MOV:G.B", "operands": "@H'F861, R0", "references": [{"address": 0xF861}], "targets": []},
{"address": 0xBE56, "mnemonic": "MOV:G.B", "operands": "R0, @H'F851", "references": [{"address": 0xF851}], "targets": []},
{"address": 0xBE5A, "mnemonic": "MOV:G.W", "operands": "@H'F862, R0", "references": [{"address": 0xF862}], "targets": []},
{"address": 0xBE5E, "mnemonic": "MOV:G.W", "operands": "R0, @H'F852", "references": [{"address": 0xF852}], "targets": []},
{"address": 0xBE62, "mnemonic": "MOV:G.B", "operands": "@H'F864, R0", "references": [{"address": 0xF864}], "targets": []},
{"address": 0xBE66, "mnemonic": "MOV:G.B", "operands": "R0, @H'F854", "references": [{"address": 0xF854}], "targets": []},
{"address": 0xBE6A, "mnemonic": "BSR", "operands": "loc_BA26", "references": [], "targets": [0xBA26]},
]
text = generate_serial_pseudocode(payload)
self.assertIn("response_at_BE6A: byte0=0x07; byte1=rx[1]; byte2=rx[2]; byte3=rx[3]; byte4=rx[4]", text)
self.assertIn("Observed 07 80 40 20 90 2D echoes RX payload bytes 80 40 20 90", text)
self.assertIn("not a table-derived value", text)
def test_surfaces_refined_semantic_candidates(self):
analysis = {
"protocol_semantics": [
{
"confidence": "medium",
"confidence_score": 0.7,
"commands": [
{
"command_value": 0,
"command_value_hex": "0x00",
"name_candidate": "set_value_acked",
"summary": "candidate acknowledged set",
"effects": [
{
"kind": "table_write_candidate",
"target_candidate": "primary_value_table_candidate",
"source_candidate": "RX[3:4] value bytes",
"table_base_hex": "H'E000",
}
],
}
],
"command_effects": [
{
"command_value": 0,
"command_value_hex": "0x00",
"name_candidate": "set_value_acked",
"summary": "Candidate acknowledged set writes value bytes.",
"effects": [
{
"kind": "table_write_candidate",
"target_candidate": "primary_value_table_candidate",
"source_candidate": "RX[3:4] value bytes",
"table_base_hex": "H'E000",
"evidence_addresses_hex": ["H'C010"],
}
],
"evidence_addresses_hex": ["H'C000"],
}
],
"response_schemas": [
{
"response_id": "response_at_C030",
"bytes": [
{"byte": "byte0", "source_expression": "0x04"},
{"byte": "byte1", "source_expression": "RX[1]"},
],
"evidence_addresses_hex": ["H'C01C", "H'C024"],
}
],
"logical_table_map_candidates": [
{
"name_candidate": "primary_value_table_candidate",
"logical_base_address_hex": "H'E000",
"element_candidate": "word_value",
"observed_accesses": ["write"],
"evidence_addresses_hex": ["H'C010"],
}
],
"state_variable_candidates": [
{
"name_candidate": "serial_session_flags_candidate",
"address": 0xFAA2,
"address_hex": "H'FAA2",
"read_count": 1,
"write_count": 2,
"bit_candidates": [7],
"evidence_addresses_hex": ["H'C018"],
}
],
"retry_error_model": {
"checksum_failure_path": {
"condition_candidate": "0x5A-seeded XOR over RX[0..4] differs from RX[5]",
"error_target": "loc_BE29",
},
"retry_path": {
"counter_address_hex": "H'FAA6",
"threshold_candidate": 2,
"summary": "Candidate retry path stages a command 0x07 response.",
},
"command_0x07_path": {
"summary": "Candidate explicit command 0x07 path copies previous TX frame bytes.",
},
"evidence_addresses_hex": ["H'BBD6", "H'BE29"],
},
"gate_queue_model": {
"predicates": [
{
"name": "main_loop_may_enter_report_builder",
"condition_candidate": "FAA2 == 0 && F9C0 == 0 && ((FAA5.bit7 == 0) || (F9C3 == 0))",
"summary": "loc_3FD3 gates loc_BAF2.",
},
{
"name": "queue_has_pending_report",
"condition_candidate": "F9B5 != F9B0",
"summary": "Queue non-empty path stages through BB43/BA26.",
},
{
"name": "periodic_resend_may_fire",
"condition_candidate": "(FAA5 & FAA3 & 0x80) != 0 && F9C6 == 0 && F9C8 != 0",
"summary": "BE9E/BED5 resend gate.",
},
],
"session_effects": [
{
"name": "rx_completion_sets_session_timer",
"summary": "RX completion sets F9C5.",
},
{
"name": "session_timeout_clears_gate_and_queue",
"summary": "loc_3FEF clears F9B5/F9B0 and clears or sets FAA5.",
},
{
"name": "host_ack_can_advance_queue",
"summary": "Commands 0x05/0x06 can ack or advance F9B5.",
"command_values_hex": ["H'05", "H'06"],
},
],
"caveat": "Many panel controls may require host/session traffic before reporting; observed autonomous call/cam-power indexes are runtime/capture overlays, not ROM constants.",
"evidence_addresses_hex": ["H'3FD3", "H'3FEB", "H'BAF2", "H'BB43", "H'BE9E", "H'BED5"],
},
"tx_report_model": {
"entry_label": "loc_BB43",
"value_source_candidate": "current_value_table_candidate",
"observed_capture_overlay_candidates": [
{
"name_candidate": "heartbeat_or_idle_report_candidate",
"observed_frames_hex": ["00 00 00 00 80 DA"],
},
{
"name_candidate": "call_button_report_candidate",
"observed_frames_hex": ["00 00 15 80 00 CF", "00 00 15 00 00 4F"],
},
{
"name_candidate": "camera_power_report_candidate",
"observed_frames_hex": ["00 00 07 80 00 DD"],
},
],
"runtime_confirmed_paths": [
{
"name": "idle_heartbeat_report_runtime_confirmation",
"report_id_hex": "H'0000",
"queue_write_semantics": "MOV:G.W #H'00 writes H'0000 to the queue slot",
"emitted_frame_hex": "00 00 00 00 80 DA",
}
],
"consistency_checks": [
{
"name": "idle_heartbeat_report_id_width",
"status": "pass",
"summary": "MOV:G.W zero-extends the H'00 immediate.",
}
],
"observed_autonomous_output_caveat": "Observed autonomous output is limited to heartbeat/call/cam-power; other controls may require host/device requests first.",
"evidence_addresses_hex": ["H'BB20", "H'BB43"],
},
"periodic_resend_model": {
"period_timer": {
"reload_value_hex": "H'01F4",
"summary": "Candidate periodic report/heartbeat timer reload.",
},
"resend_countdown": {
"reload_value_hex": "H'14",
"summary": "Candidate periodic resend countdown.",
},
"pending_mask": {
"mask_hex": "H'80",
"summary": "Candidate autonomous report pending mask.",
},
"resend_path": {
"summary": "Candidate periodic resend path feeding TX staging.",
},
"evidence_addresses_hex": ["H'BE90", "H'BED5"],
},
"timer_interrupt_model": {
"source": "FRT1 OCIA",
"vector_address_hex": "H'BEEA",
"counters": [
{
"address": 0xF9C0,
"address_hex": "H'F9C0",
"name_candidate": "tx_report_gate_counter_candidate",
"role": "candidate report gate counter.",
},
{
"address": 0xF9C1,
"address_hex": "H'F9C1",
"name_candidate": "rx_interbyte_timeout_candidate",
"role": "candidate RX interbyte timeout counter.",
},
{
"address": 0xF9C6,
"address_hex": "H'F9C6",
"name_candidate": "periodic_resend_cadence_counter_candidate",
"role": "candidate periodic resend cadence counter.",
},
],
"evidence_addresses_hex": ["H'BEEA", "H'BEF4"],
},
}
]
}
with patch("h8536.serial_pseudocode.analyze_serial_semantics", return_value=analysis):
text = generate_serial_pseudocode(candidate_payload())
self.assertIn("command effects:", text)
self.assertIn("effect: table_write_candidate; target primary_value_table_candidate", text)
self.assertIn("response schemas:", text)
self.assertIn("response_at_C030: byte0=0x04; byte1=RX[1]", text)
self.assertIn("table map candidates:", text)
self.assertIn("primary_value_table_candidate at H'E000", text)
self.assertIn("state variable candidates:", text)
self.assertIn("serial_session_flags_candidate H'FAA2: reads 1, writes 2; bits 7", text)
self.assertIn("retry/error model candidate:", text)
self.assertIn("checksum path: 0x5A-seeded XOR over RX[0..4] differs from RX[5] -> loc_BE29", text)
self.assertIn("gate/queue state machine candidate:", text)
self.assertIn("main_loop_may_enter_report_builder: FAA2 == 0 && F9C0 == 0", text)
self.assertIn("queue_has_pending_report: F9B5 != F9B0", text)
self.assertIn("host_ack_can_advance_queue: Commands 0x05/0x06 can ack or advance F9B5", text)
self.assertIn("static bool sci1_candidate_main_report_gate_open(void)", text)
self.assertIn("static bool sci1_candidate_report_queue_nonempty(void)", text)
self.assertIn("static bool sci1_candidate_idle_heartbeat_enqueue_gate_open(void)", text)
self.assertIn("candidate_enqueue_report(0x0000u);", text)
self.assertIn("static bool sci1_candidate_periodic_resend_gate_open(void)", text)
self.assertIn("TX/autonomous report model candidate:", text)
self.assertIn("loc_BB43 -> loc_BA26: bytes 0..2 encode candidate logical index/report id; bytes 3..4 come from current_value_table_candidate", text)
self.assertIn("heartbeat_or_idle_report_candidate: 00 00 00 00 80 DA", text)
self.assertIn("runtime confirmation: idle_heartbeat_report_runtime_confirmation: report H'0000 emits 00 00 00 00 80 DA", text)
self.assertIn("consistency idle_heartbeat_report_id_width: pass", text)
self.assertIn("heartbeat/periodic resend candidate:", text)
self.assertIn("F9C6 reload H'01F4", text)
self.assertIn("BED5 resend path", text)
self.assertIn("interrupt/timer architecture candidate:", text)
self.assertIn("FRT1 OCIA H'BEEA appears to be a periodic tick ISR", text)
self.assertIn("H'F9C0 tx_report_gate_counter_candidate: candidate report gate counter.", text)
self.assertIn("H'F9C1 rx_interbyte_timeout_candidate: candidate RX interbyte timeout counter.", text)
self.assertIn("H'F9C6 periodic_resend_cadence_counter_candidate: candidate periodic resend cadence counter.", text)
self.assertIn("void frt1_ocia_candidate_tick_isr(void)", text)
self.assertIn("MEM8[0xF9C0u] = (u8)(MEM8[0xF9C0u] - 1u);", text)
self.assertIn("MEM8[0xF9C1u] = (u8)(MEM8[0xF9C1u] - 1u);", text)
self.assertIn("MEM8[0xF9C6u] = (u8)(MEM8[0xF9C6u] - 1u);", text)
self.assertIn("candidate effect: table_write_candidate; target primary_value_table_candidate", text)
def test_panel_selector_semantics_are_emitted_as_comments_and_helper(self):
analysis = {
"protocol_semantics": [
{
"confidence": "medium",
"confidence_score": 0.7,
"commands": [],
"panel_selector_semantics": [
{
"selector": 0x0013,
"selector_hex": "0x0013",
"name": "slave_and_iris_mblack_link_lamps",
"summary": "Selector 0x0013 reads H'E826 and controls two lamp bits.",
"current_word_address_hex": "H'E826",
"dispatch_handler": "H'2E06",
"state_machine": {
"name_candidate": "iris_mblack_link_closed_loop_state_candidate",
"summary": "RCP reports local intent, CCU ACKs selector 0x0013, then mirrors accepted state back.",
"active_report_frame": "00 00 13 40 00 09",
"clear_report_frame": "00 00 13 00 00 49",
"ack_frame": "05 00 13 00 00 4C",
"active_mirror_frame": "00 00 13 40 00 09",
"clear_mirror_frame": "00 00 13 00 00 49",
},
"effects": [
{
"bit": 14,
"mask": 0x4000,
"mask_hex": "0x4000",
"name": "IRIS/M.BLACK LINK lamp",
"when_set": "sets F791.5 and F716.7",
"when_clear": "clears F791.5 and F716.7",
"ram_bits": ["F791.5", "F716.7"],
},
],
"local_triggers": [
{
"source": "F006.7 / F6DB.7",
"handler": "H'200E",
"name_candidate": "provisional_iris_mblack_link_button_toggle_report",
"summary": "H'200E toggles H'E826 bit14 and queues selector 0x0013.",
"gate": "F731 <= 3",
"current_state_bit": "F791.5",
"active_value": 0x4000,
"clear_value": 0x0000,
},
],
},
],
}
]
}
with patch("h8536.serial_pseudocode.analyze_serial_semantics", return_value=analysis):
text = generate_serial_pseudocode(candidate_payload())
self.assertIn("panel selector semantics:", text)
self.assertIn("0x0013 slave_and_iris_mblack_link_lamps", text)
self.assertIn("0x4000 -> IRIS/M.BLACK LINK lamp", text)
self.assertIn("F791.5", text)
self.assertIn("F716.7", text)
self.assertIn("F006.7 / F6DB.7", text)
self.assertIn("iris_mblack_link_closed_loop_state_candidate", text)
self.assertIn("ACK 05 00 13 00 00 4C", text)
self.assertIn("static void sci1_candidate_panel_selector_annotation", text)
self.assertIn("case 0x0013u:", text)
self.assertIn("void provisional_iris_mblack_link_button_toggle_report(void)", text)
self.assertIn("Source F006.7 / F6DB.7; gate F731 <= 3; current state F791.5.", text)
self.assertIn("Requests selector 0x0013=0x4000", text)
self.assertIn("CCU should ACK 05 00 13 00 00 4C, then mirror 00 00 13 40 00 09.", text)
def test_timer_source_models_emit_separate_tick_isrs(self):
analysis = {
"protocol_semantics": [
{
"confidence": "medium",
"confidence_score": 0.6,
"timer_interrupt_model": {
"sources": [
{
"source": "FRT2 OCIA",
"handler_address_hex": "H'BF23",
"summary": "Candidate periodic tick ISR for idle heartbeat/report counters.",
"counters": [
{
"address": 0xF9C4,
"address_hex": "H'F9C4",
"name_candidate": "idle_heartbeat_gate_countdown_candidate",
"role": "candidate idle/default report enqueue countdown.",
}
],
}
]
},
}
]
}
with patch("h8536.serial_pseudocode.analyze_serial_semantics", return_value=analysis):
text = generate_serial_pseudocode(candidate_payload())
self.assertIn("FRT2 OCIA H'BF23", text)
self.assertIn("H'F9C4 idle_heartbeat_gate_countdown_candidate", text)
self.assertIn("void frt2_ocia_candidate_tick_isr(void)", text)
self.assertIn("MEM8[0xF9C4u] = (u8)(MEM8[0xF9C4u] - 1u);", text)
def test_tx_only_option_omits_rx_functions(self):
text = generate_serial_pseudocode(
candidate_payload(),
options=SerialPseudocodeOptions(include_rx=False),
)
self.assertIn("void sci1_tx_start_candidate_frame(void)", text)
self.assertNotIn("sci1_rx_byte_received_candidate_isr", text)
def test_write_serial_pseudocode_writes_output_file(self):
with tempfile.TemporaryDirectory() as tmp:
input_path = Path(tmp) / "rom.json"
output_path = Path(tmp) / "serial.c"
input_path.write_text(
json.dumps(candidate_payload()),
encoding="utf-8",
)
write_serial_pseudocode(input_path, output_path, SerialPseudocodeOptions())
self.assertIn("sci1_process_rx_candidate_frame", output_path.read_text(encoding="utf-8"))
if __name__ == "__main__":
unittest.main()